
TL;DR
This paper proves that any finite connectivity, finite genus Riemann surface can be conformally mapped to an intrinsic circle domain, with a generalization to infinite connectivity and methods for numerical approximation.
Contribution
It establishes the existence and uniqueness of intrinsic circle domains for Riemann surfaces and introduces numerical methods for their approximation.
Findings
Existence and uniqueness of intrinsic circle domains for finite connectivity surfaces
Generalization to countably infinite connectivity surfaces
Numerical approximation techniques using circle packings and conformal welding
Abstract
Using quasiconformal mappings, we prove that any Riemann surface of finite connectivity and finite genus is conformally equivalent to an intrinsic circle domain U in a compact Riemann surface S. This means that each connected component B of S \ U is either a point or a closed geometric disc with respect to the complete constant curvature conformal metric of the Riemann surface (U union B). Moreover the pair (U,S) is unique up to conformal isomorphisms. We give a generalization to countably infinite connectivity. Finally we show how one can compute numerical approximations to intrinsic circle domains using circle packings and conformal welding.
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Taxonomy
TopicsAnalytic and geometric function theory · Pelvic and Acetabular Injuries · Holomorphic and Operator Theory
